This technology offer presents a nano-formulated iron supplement designed to enhance nutrient uptake and improve plant growth efficiency. Using nano-sized iron particles, the formulation increases iron solubility and bioavailability, ensuring faster absorption through plant roots and foliage. Iron is essential for chlorophyll production, photosynthesis, and metabolic enzyme activities. In many soils, especially alkaline or calcareous soils, iron becomes unavailable, leading to yellowing leaves and reduced growth. The formulation overcomes this challenge by delivering iron in a stable, highly absorbable form that maintains plant greenness, increases leaf development, and enhances overall plant vigor. Field trials on Brazilian spinach demonstrated up to 82% increase in plant height, broader leaf formation, and healthier coloration compared to untreated controls. The technology owner is open to further co-development and field validation through multi-site trials, data sharing, and performance benchmarking across various soil types and crops.

Copper is high in reflectivity and thermal conductivity which makes it difficult to process using lasers. This copper 3D printing technology leverages powder bed fusion (PBF) and advanced high-powered laser to selectively fuses metal powder layer by layer. This enables the precise fabrication of intricate copper component while preserving the material's mechanical strength and conductivity. This technology enables superior design freedom, allowing small features and internal structures that is otherwise impossible to achieve with conventional copper manufacuturing methods. The technology owner is seeking for industry use cases for co-development. 

This system introduces a high-performance composite industrial 3D printer with a modular print system, enabling users to seamlessly switch between different composite print engines. It uses a unique combination of Fused Filament Fabrication (FFF) and Continuous Fiber Reinforcement (CFR) technology to create high-strength parts with exceptional dimensional accuracy. Designed for industrial-scale production, its expansive print volume accommodates the creation of large, complex parts with ease. This is particularly beneficial for industries like aerospace and automotive, where intricate designs are often required. Additionally, the 3D printing approach significantly reduces production time compared to traditional manufacturing methods, allowing for faster turnaround and increased efficiency.  The technology owner is seeking for industry use cases for co-development. 

This technology enhances additive manufacturing (AM) of corrosion-resistant Stainless Steel 254 (SS254), a super austenitic alloy engineered for exceptional durability in harsh and saline environments. Developed through collaborative research supported by national innovation funding, the project optimised key AM parameters to achieve consistent part quality and mechanical performance. Through extensive experimentation, a validated processing window was established to ensure dense microstructure, high mechanical strength, and excellent corrosion resistance. The printed SS254 parts demonstrate a yield strength of approximately 600 MPa and can operate effectively across temperatures from –50 °C to over 250 °C. This advancement enables the production of complex, high-performance components directly through additive manufacturing, eliminating the need for conventional casting or machining. By positioning SS254 as a cost-effective alternative to nickel and titanium alloys, this innovation promotes sustainable, digital manufacturing for corrosion-critical applications across marine, chemical processing, and energy sectors.

Traditional hydropower systems require large-scale infrastructure, making them expensive and location dependent. This In-Pipe Hydropower Generation System offers an innovative, cost-effective, and eco-friendly alternative that captures excess water pressure within pipelines to generate electricity. The system features multiple nozzles and a smart bypass mechanism that optimize power generation while maintaining stable water flow. It is designed to be scalable, modular, and compatible with existing municipal and industrial pipeline networks. Additionally, it can efficiently generate energy under varying flow conditions. While the system is capable of producing significantly higher power, real-world testing has demonstrated an output of up to 60 kW, helping to reduce energy costs and provide a sustainable solution for water distribution networks. The technology provider is seeking collaboration partners, including municipal and government agencies, industrial water users, agricultural and irrigation networks, and engineering and utility companies, to co-develop, test-bed, and deploy the In-Pipe Hydropower System.

Coastal regions are increasingly vulnerable to shoreline erosion and infrastructure damage caused by rising sea levels, stronger waves, and frequent storm surges. Conventional concrete breakwater designs often struggle under such harsh marine conditions due to inadequate interlocking, limited adaptability to diverse coastal profiles, and high maintenance demands. This technology introduces geopolymer-based, geometrically optimized concrete armour units designed to enhance the stability, durability, and sustainability of coastal protection structures. By using fly ash–based geopolymer concrete, the technology not only reduces carbon emissions but also delivers superior interlocking performance and long-term resilience against dynamic wave forces, making it a sustainable solution for modern coastal defense. The technology owner is seeking R&D collaborations with coastal engineering firms, infrastructure developers, and government agencies to co-develop, testbed, and commercialise this geopolymer-based armour unit technology, accelerating its deployment in sustainable coastal protection projects

An Adsorption Heat Pump (AHP) is a thermally driven heating and cooling system that operates through the physical adsorption of a refrigerant onto a solid adsorbent material. Unlike conventional vapor-compression systems that rely on mechanical energy, AHPs are powered by low-grade thermal energy sources such as waste heat, solar thermal energy, or biomass, offering a highly energy-efficient and environmentally sustainable alternative. Using environmentally safe solid adsorbents such as silica gel, zeolite, or activated carbon, and natural refrigerants like water or ammonia, the system functions through a cyclic adsorption–desorption process. During adsorption, refrigerant vapor adheres to the solid adsorbent, releasing heat for heating purposes. In the desorption phase, heat is applied to the adsorbent, releasing the refrigerant vapor, which then condenses to produce cooling. By tapping into waste or renewable heat sources, AHPs significantly reduce electricity consumption and carbon emissions, making them ideal for decentralized and off-grid applications. They are particularly effective in settings where electricity is limited or costly, or where waste heat is abundantly available. Although AHPs typically exhibit lower coefficients of performance (COP) than conventional systems and may require more installation space, their energy efficiency, sustainability, safety, and long lifespan make them a compelling choice for green and circular energy systems. This technology is available for R&D collaboration and IP licensing with industrial partners including data centers, refrigeration equipment manufacturers, and energy solution providers.

Buildings and photovoltaic (PV) systems face two major challenges: excessive heat gain and frequent surface soiling. In tropical climates, solar heat through glass façades can account for up to 40% of total cooling demand, while dust accumulation on PV panels can lower efficiency by 5–30% within months. These issues increase energy use, maintenance frequency, and operational costs. This technology introduces a multifunctional multilayer coating that integrates self-cleaning, infrared (IR) heat rejection, and high optical transparency in a single, durable formulation. Unlike conventional coatings that require multiple layers for different functions, this innovation achieves comparable or superior performance in an integrated multilayer design—simplifying application and lowering cost. The photocatalytic self-cleaning surface decomposes organic contaminants and enables natural washing by rain, reducing cleaning needs. Simultaneously, the IR-reflective layer rejects near-infrared heat while maintaining over ~80% visible light transmittance, cutting cooling energy use by ~10–15% without compromising daylight. Compact, scalable, and retrofit-friendly, this coating offers a cost-effective solution for building operators and solar installers aiming to enhance energy efficiency, reduce maintenance, and improve sustainability performance. The technology owner is seeking industry partners in solar panel manufacturing, green building projects, and glass applications for licensing

Polyoxymethylene (POM) is a high-performance engineered thermoplastic widely used in the automotive, electronics, and industrial sectors due to its excellent mechanical strength, chemical resistance, and dimensional stability. However, its conventional production relies heavily on formaldehyde derived from fossil-based methanol, presenting significant sustainability and carbon footprint challenges. Amid growing environmental concerns and global net-zero commitments, carbon dioxide (CO₂) utilisation is emerging as a promising approach for transforming waste carbon into value-added materials. Among various CO₂-derived chemicals, methanol stands out as a viable and sustainable feedstock, offering a low-carbon alternative to traditional petrochemical-based inputs. To advance circular economy goals and reduce reliance on fossil resources, a Singapore-based SME is seeking innovative and scalable technologies that can convert CO₂-derived methanol into POM or its intermediates such as formaldehyde or trioxane. Proposed solutions may include end-to-end pathways using commercially viable CO₂-derived methanol to produce POM, or novel routes that directly convert CO₂ into POM through intermediate steps.

In 2023, Singapore generated approximately 755,000 tonnes of food waste, with only 18% recycled, underscoring the urgent need for innovative waste management strategies. The nation's Zero Waste Master Plan have significantly propelled efforts to transform food waste into valuable resources. Food waste valorisation involves pre-processing steps like drying, microbial fermentation, or enzymatic breakdown into biomass which can convert nutrients into suitable ingredients for animal feed, food ingredients and biofuels.  A significant technical challenge arises for companies handling heterogeneous municipal food waste in Singapore due to its high oil content. The presence of oil may potentially lead to fouling, clogging of processing equipment, reducing processing efficiency. On the contrary, oil is also a valuable ingredient for biofuel. Therefore, the company is seeking for solution providers who can de-oil from the biomass.

According to the Health Promotion Board (HPB) in Singapore, 90% of Singapore residents' consumption of sodium exceeds the daily recommended intake, with the average consumption at 3620 mg, nearly double of the recommended 2000 mg per day. As a result, one in six Singapore residents report health problems like hypertension and hypolipidaemia. In an effort to curb this, HPB launched the "Less Salt, More Taste" campaign in 2024 to encourage the food manufacturing and food service industry to change their recipes and add less salt and sauces, or switch to use lower-sodium alternatives for salt, sauces and seasonings. Manufacturers are also encouraged to increase the supply of lower-sodium ingredients for the food service sector. Consumers are also encouraged to choose low sodium options, or use less salt in their home cooking. This sodium reduction strategy aims to reduce Singaporeans’ sodium intake by 15% by 2026.